CN113344874A - Pedestrian boundary crossing detection method based on Gaussian mixture modeling - Google Patents

Pedestrian boundary crossing detection method based on Gaussian mixture modeling Download PDF

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CN113344874A
CN113344874A CN202110627647.7A CN202110627647A CN113344874A CN 113344874 A CN113344874 A CN 113344874A CN 202110627647 A CN202110627647 A CN 202110627647A CN 113344874 A CN113344874 A CN 113344874A
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胡明俊
张笑钦
范晨翔
曹少丽
黄自玮
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Abstract

The invention provides a pedestrian boundary crossing detection method based on Gaussian mixture modeling, which comprises the following steps: step1, acquiring a dynamic monitoring video of a monitoring area through an image acquisition device, and preprocessing the dynamic monitoring video; step2, analyzing the preprocessed image information, setting forbidden zone boundary vertexes for the zone edges forbidden to cross the border, and connecting adjacent boundary vertexes to obtain a closed boundary line of the forbidden zone; step3, constructing a Gaussian mixture model, acquiring a moving target contour in the preprocessed current frame image, and screening out the moving target contour of which the minimum circumscribed rectangle area is larger than an area threshold value; and Step4, counting foreground proportion values of the moving target contour in the area forbidden to cross the border and the duration time greater than the foreground proportion threshold, alarming when the duration time is greater than a set threshold, and continuously detecting if the duration time is not greater than the set threshold.

Description

Pedestrian boundary crossing detection method based on Gaussian mixture modeling
Technical Field
The invention relates to the technical field of safety monitoring, in particular to a pedestrian boundary crossing detection method based on Gaussian mixture modeling.
Background
With the continuous development of computer vision technology, the intelligent video monitoring technology is also receiving much attention, which relates to a plurality of disciplinary knowledge such as computer vision, image processing, artificial intelligence, mode identification, etc., and the intelligent video monitoring system is different from the traditional monitoring system in intelligence, realizes the detection, identification and tracking of moving objects in a monitoring scene by automatically analyzing the content of monitoring video, and finally realizes the detection of object behaviors. Therefore, how to timely and accurately detect whether a person invades a dangerous area or a forbidden area and carry out alarm linkage to avoid tragedies is very important, and based on the method, the pedestrian boundary crossing detection method based on Gaussian mixture modeling is provided.
In summary, it is an urgent need to solve the problem of the skilled person in the art to provide a pedestrian boundary crossing detection method based on gaussian mixture modeling, which can improve the boundary crossing detection accuracy and speed, has less calculation amount, and can perform online and offline alarm in time.
Disclosure of Invention
In order to solve the above-mentioned problems and needs, the present solution provides a pedestrian boundary crossing detection method based on gaussian mixture modeling, which can solve the above technical problems due to the following technical solutions.
In order to achieve the purpose, the invention provides the following technical scheme: a pedestrian boundary crossing detection method based on Gaussian mixture modeling comprises the following steps: step1, acquiring a dynamic monitoring video of a monitoring area through an image acquisition device, and storing the dynamic monitoring video to a cache preprocessing module for video image preprocessing;
step2, analyzing the preprocessed image information, setting forbidden zone boundary vertexes for the zone edges forbidden to cross the border, and connecting adjacent boundary vertexes to obtain a closed boundary line of the forbidden zone;
step3, constructing a Gaussian mixture model, acquiring moving target contours in the preprocessed current frame image, setting an area threshold, acquiring the minimum circumscribed rectangle area and the minimum circumscribed rectangle central point of each moving target contour, and screening out the moving target contours with the minimum circumscribed rectangle areas larger than the area threshold;
and Step4, setting a foreground proportion threshold value and a timer threshold value, counting foreground proportion values of the moving target contour in the area forbidden to cross the boundary and the duration time greater than the foreground proportion threshold value, alarming when the duration time is greater than the set threshold value, and if not, continuing to detect.
Furthermore, the image acquisition device comprises a high-definition infrared camera and a monitoring control device, the high-definition infrared camera is used for acquiring image information in a monitoring area and transmitting the image information to the cache preprocessing module for image preprocessing in the border-crossing monitoring area, and the monitoring control device is used for adjusting light compensation, angle and focal length parameters of the high-definition infrared camera and carrying out fault detection and on-off control on the high-definition infrared camera.
Still further, the pre-processing comprises: and carrying out continuous image acquisition according to a user instruction, then carrying out accumulation and calculation on the continuously acquired images, calculating the average value of the accumulated images, taking the average image of the images selected by the user as an initialized image of the Gaussian mixture model, carrying out framing and graying processing on the received monitoring video image, and inputting the processed image into a detection system for border crossing detection.
Further, a safety flag of the moving object located inside and outside the forbidden area closed boundary line is set, the safety flag of the moving object located inside the boundary line is set to be 1, and the safety flag of the moving object located outside the boundary line is set to be 0.
Further, the constructing the gaussian mixture model comprises: firstly, performing background modeling on a current monitoring scene through a background modeling method, and establishing a mixed Gaussian model for each pixel point; for the newly acquired current frame image, comparing the current frame image with a background model to determine the foreground and background of the current frame image, namely pixel classification, and storing the result in a foreground image; and then optimizing the foreground image through morphological operation, and removing a small interference area of a non-pedestrian in the foreground image through a scale filter.
Still further, the pixel classification includes: and acquiring a newly read image frame, judging each pixel point, marking the corresponding pixel point as a background in the foreground image if the pixel point meets a background model of the point, and otherwise marking the corresponding pixel point as a foreground, namely a moving target.
Further, the determining each pixel point includes: firstly, initializing the mean value, standard deviation and weight of each Gaussian mixture model to obtain model initialization matrix parameters; acquiring a T frame image in a video, and obtaining a mean value, a standard deviation and a weight of each pixel point by adopting an online EM (effective noise) algorithm; detecting a newly read image frame, and sequencing each Gaussian kernel from large to small by dividing a weight w by a standard deviation sigma for each pixel point; then selecting the first B gaussians to ensure that
Figure BDA0003102275590000031
Eliminating noise points in the training process, wherein T is a set threshold; if only one Gaussian component in the pixel values of the current pixel point meets the following conditions:
Figure BDA0003102275590000032
is considered as a background point, where μiAnd (4) setting N as a mean value, updating the background image by using an online EM algorithm, and assigning the foreground as 255 and the background as 0 to obtain a foreground binary image.
Furthermore, the morphological operation comprises removing the remaining isolated points in the image by using morphological erosion and dilation operations on the foreground image, and filling the hollow area.
Further, the removing of the small interference area of the non-pedestrian in the foreground image by the scale filter includes counting the number of pixels in each small area, and removing the small non-attention area by the scale filter, wherein the size of the scale filter is set to be 30.
Furthermore, a foreground proportion value, namely a foreground pixel area ratio, of the moving target profile in an area where boundary crossing is forbidden is counted, when the foreground pixel area ratio value is larger than a set threshold value, a timer times, if the counted time is larger than the set threshold value, boundary crossing is judged, boundary crossing alarming is conducted, the boundary crossing alarming comprises online marking alarming and site alarming, online marking alarming recording is conducted according to a set safety mark, and the site alarming comprises a voice alarming device and a display reminding device; the voice warning device comprises a single chip microcomputer, a power supply module, a voice synthesizer, a loudspeaker and a wireless communication module, wherein the loudspeaker is electrically connected with the voice synthesizer, the single chip microcomputer controls the voice synthesizer to play set abnormal reminding voice through the loudspeaker, the power supply module comprises an EMI filter, a rectifier bridge and a DC-DC converter, the input end of the EMI filter is connected with a mains supply output end, the EMI filter, the rectifier bridge and the DC-DC converter are electrically connected in sequence, and the power supply module is used for providing required electric energy for the voice warning device; the display reminding device comprises an LED display screen and an LED display screen driver, the LED display screen driver is electrically connected with the LED display screen, and the LED display screen is used for displaying abnormal alarm data in a rolling mode.
According to the technical scheme, the invention has the beneficial effects that: the method can improve the accuracy and speed of border crossing detection, has less calculation amount, and can give an alarm online and offline in time.
In addition to the above objects, features and advantages, preferred embodiments of the present invention will be described in more detail below with reference to the accompanying drawings so that the features and advantages of the present invention can be easily understood.
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In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings used in the description of the embodiments of the present invention or the prior art will be briefly described, wherein the drawings are only used for illustrating some embodiments of the present invention and do not limit all embodiments of the present invention thereto.
FIG. 1 is a schematic diagram of specific steps of a pedestrian boundary crossing detection method based on Gaussian mixture modeling.
Fig. 2 is a schematic diagram illustrating specific steps of the pixel classification process in this embodiment.
Fig. 3 is a flowchart illustrating a pedestrian boundary crossing detection process based on gaussian mixture modeling in this embodiment.
Detailed Description
In order to make the objects, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings of specific embodiments of the present invention. Like reference symbols in the various drawings indicate like elements. It should be noted that the described embodiments are only some embodiments of the invention, and not all embodiments. All other embodiments, which can be derived by a person skilled in the art from the described embodiments of the invention without any inventive step, are within the scope of protection of the invention.
When a pedestrian appears in a scene, a monitoring picture different from the background appears, a pixel point of the position of the pedestrian is called a foreground pixel, a pixel of the monitoring background is called a background pixel, and a foreground area of the pedestrian is a key point concerned by the system. In places where pedestrians are prohibited to approach such as environment monitoring points and power supply stations and places where the flow of people is dense and the pedestrians need to be prevented from crossing the boundary such as railway stations and airports, an off-boundary detection and alarm system which can improve the accuracy and speed of off-boundary detection, has less calculation amount and can timely perform on-line and off-line alarm is needed to timely prevent the dangerous off-boundary situation from occurring, as shown in fig. 1 to 3, the pedestrian crossing detection method based on Gaussian mixture modeling specifically comprises the following steps: and Step1, acquiring the dynamic monitoring video of the monitoring area through the image acquisition device, and storing the dynamic monitoring video to a cache preprocessing module for video image preprocessing.
In this embodiment, the image acquiring device includes a high-definition infrared camera and a monitoring control device, the high-definition infrared camera is used for acquiring image information in a monitoring area and transmitting the image information to the cache preprocessing module for image preprocessing in the out-of-range monitoring area, the monitoring control device is used for adjusting light compensation, angle and focal length parameters of the high-definition infrared camera and performing fault detection and on-off control on the high-definition infrared camera, and the monitoring control device specifically includes a work control module and an intelligent pan-tilt module, the work control module includes an intelligent controller, and the intelligent controller includes a relay access point, the relay access point forms a corresponding branch circuit channel, and controls on-off of the branch circuit channel so as to control a camera power-on switch connected to the branch circuit channel, the intelligent holder module is used for adjusting light compensation, angle and focal length parameters of the high-definition infrared camera. And the pre-treatment comprises: and carrying out continuous image acquisition according to a user instruction, then carrying out accumulation and calculation on the continuously acquired images, calculating the average value of the accumulated images, taking the average image of the images selected by the user as an initialized image of the Gaussian mixture model, carrying out framing and graying processing on the received monitoring video image, and inputting the processed image into a detection system for border crossing detection.
And Step2, analyzing the preprocessed image information, setting forbidden zone boundary vertexes on the edge of the forbidden out-of-range area, connecting adjacent boundary vertexes to obtain a forbidden zone closed boundary line, and setting safety signs of moving targets positioned inside and outside the forbidden zone closed boundary line, wherein the safety sign of the moving targets positioned inside the boundary line is set to be 1, and the safety sign of the moving targets positioned outside the boundary line is set to be 0.
Step3, constructing a Gaussian mixture model, acquiring the moving target contours in the preprocessed current frame image, setting an area threshold, acquiring the minimum circumscribed rectangle area and the minimum circumscribed rectangle central point of each moving target contour, and screening the moving target contours with the minimum circumscribed rectangle areas larger than the area threshold.
The constructing of the Gaussian mixture model comprises the following steps: firstly, performing background modeling on a current monitoring scene through a background modeling method, and establishing a mixed Gaussian model for each pixel point; for the newly acquired current frame image, comparing the current frame image with a background model to determine the foreground and background of the current frame image, namely pixel classification, and storing the result in a foreground image; and then optimizing the foreground image through morphological operation, and removing a small interference area of a non-pedestrian in the foreground image through a scale filter.
As shown in fig. 2, the pixel classification includes: acquiring a newly read image frame, and judging each pixel point; if the pixel point meets the background model of the point, the corresponding pixel point is marked as the background in the foreground image, otherwise, the corresponding pixel point is marked as the foreground, namely the moving target. The judging of each pixel point comprises: a. firstly, initializing the mean value, standard deviation and weight of each Gaussian mixture model to obtain model initialization matrix parameters; b. acquiring a T frame image in a video, and obtaining a mean value, a standard deviation and a weight of each pixel point by adopting an online EM (effective noise) algorithm; c. detecting a newly read image frame, and sequencing each Gaussian kernel from large to small by dividing a weight w by a standard deviation sigma for each pixel point; d. then selecting the first B gaussians to ensure that
Figure BDA0003102275590000061
Eliminating noise points in the training process, wherein T is a set threshold; e. if only one Gaussian component in the pixel values of the current pixel point meets the following conditions:
Figure BDA0003102275590000062
is considered as a background point, where μiAnd (4) setting N as a mean value, updating the background image by using an online EM algorithm, and assigning the foreground as 255 and the background as 0 to obtain a foreground binary image. And the morphological operation comprises removing the remaining isolated points in the foreground image by adopting morphological erosion and expansion operations, and filling the hollow area. The scale filter removes foreground imagesThe small interference area of the middle non-pedestrian comprises the steps of counting the number of pixels in each small area, removing the small non-attention area by adopting a scale filter, and setting the size of the scale filter to be 30.
And Step4, setting a foreground proportion threshold value and a timer threshold value, counting foreground proportion values of the moving target contour in the area forbidden to cross the boundary and the duration time greater than the foreground proportion threshold value, alarming when the duration time is greater than the set threshold value, and if not, continuing to detect. The method comprises the steps that a foreground proportion value, namely a foreground pixel area ratio, of a moving target contour in an area where boundary crossing is forbidden is counted, when the foreground pixel area ratio value is larger than a set threshold value, a timer times, if the counted time is larger than the set threshold value, boundary crossing is judged, boundary crossing alarming is conducted, the boundary crossing alarming comprises online marking alarming and site alarming, online marking alarming recording is conducted according to set safety marks through the online marking alarming, and the site alarming comprises a voice alarming device and a display reminding device; the voice warning device comprises a single chip microcomputer, a power supply module, a voice synthesizer, a loudspeaker and a wireless communication module, wherein the loudspeaker is electrically connected with the voice synthesizer, the single chip microcomputer controls the voice synthesizer to play set abnormal reminding voice through the loudspeaker, the power supply module comprises an EMI filter, a rectifier bridge and a DC-DC converter, the input end of the EMI filter is connected with a mains supply output end, the EMI filter, the rectifier bridge and the DC-DC converter are electrically connected in sequence, and the power supply module is used for providing required electric energy for the voice warning device; the display reminding device comprises an LED display screen and an LED display screen driver, the LED display screen driver is electrically connected with the LED display screen, and the LED display screen is used for displaying abnormal alarm data in a rolling mode.
It should be noted that the described embodiments of the invention are only preferred ways of implementing the invention, and that all obvious modifications, which are within the scope of the invention, are all included in the present general inventive concept.

Claims (10)

1. A pedestrian boundary crossing detection method based on Gaussian mixture modeling is characterized by comprising the following steps:
step1, acquiring a dynamic monitoring video of a monitoring area through an image acquisition device, and storing the dynamic monitoring video to a cache preprocessing module for video image preprocessing;
step2, analyzing the preprocessed image information, setting forbidden zone boundary vertexes for the zone edges forbidden to cross the border, and connecting adjacent boundary vertexes to obtain a closed boundary line of the forbidden zone;
step3, constructing a Gaussian mixture model, acquiring moving target contours in the preprocessed current frame image, setting an area threshold, acquiring the minimum circumscribed rectangle area and the minimum circumscribed rectangle central point of each moving target contour, and screening out the moving target contours with the minimum circumscribed rectangle areas larger than the area threshold;
and Step4, setting a foreground proportion threshold value and a timer threshold value, counting foreground proportion values of the moving target contour in the area forbidden to cross the boundary and the duration time greater than the foreground proportion threshold value, alarming when the duration time is greater than the set threshold value, and if not, continuing to detect.
2. The pedestrian boundary crossing detection method based on Gaussian mixture modeling according to claim 1, wherein the image acquisition device comprises a high-definition infrared camera and a monitoring control device, the high-definition infrared camera is used for acquiring image information in a monitored area and transmitting the image information to the cache preprocessing module for image preprocessing in the boundary crossing monitored area, and the monitoring control device is used for adjusting light compensation, angle and focal length parameters of the high-definition infrared camera and performing fault detection and on-off control on the high-definition infrared camera.
3. The pedestrian boundary crossing detection method based on Gaussian mixture modeling according to claim 2, wherein the preprocessing comprises: and carrying out continuous image acquisition according to a user instruction, then carrying out accumulation and calculation on the continuously acquired images, calculating the average value of the accumulated images, taking the average image of the images selected by the user as an initialized image of the Gaussian mixture model, carrying out framing and graying processing on the received monitoring video image, and inputting the processed image into a detection system for border crossing detection.
4. The pedestrian boundary crossing detection method based on Gaussian mixture modeling according to claim 3, wherein safety flags that moving objects are located inside and outside the forbidden region closed boundary line are set, the safety flag that moving objects are located inside the boundary line is set to 1, and the safety flag that moving objects are located outside the boundary line is set to 0.
5. The pedestrian boundary crossing detection method based on Gaussian mixture modeling according to claim 4, wherein the constructing of the Gaussian mixture model comprises: firstly, performing background modeling on a current monitoring scene through a background modeling method, and establishing a mixed Gaussian model for each pixel point; for the newly acquired current frame image, comparing the current frame image with a background model to determine the foreground and background of the current frame image, namely pixel classification, and storing the result in a foreground image; and then optimizing the foreground image through morphological operation, and removing a small interference area of a non-pedestrian in the foreground image through a scale filter.
6. The pedestrian boundary crossing detection method based on Gaussian mixture modeling according to claim 5, wherein the pixel classification comprises: and acquiring a newly read image frame, judging each pixel point, marking the corresponding pixel point as a background in the foreground image if the pixel point meets a background model of the point, and otherwise marking the corresponding pixel point as a foreground, namely a moving target.
7. The pedestrian boundary crossing detection method based on Gaussian mixture modeling according to claim 6, wherein the judgment of each pixel point comprises: firstly, initializing the mean value, standard deviation and weight of each Gaussian mixture model to obtain model initialization matrix parameters; acquiring a T frame image in a video, and obtaining a mean value and a standard of each pixel point by adopting an online EM algorithmTolerance and weight; detecting a newly read image frame, and sequencing each Gaussian kernel from large to small by dividing a weight w by a standard deviation sigma for each pixel point; then selecting the first B gaussians to ensure that
Figure FDA0003102275580000021
Eliminating noise points in the training process, wherein T is a set threshold; if only one Gaussian component in the pixel values of the current pixel point meets the following conditions:
Figure FDA0003102275580000022
is considered as a background point, where μiAnd (4) setting N as a mean value, updating the background image by using an online EM algorithm, and assigning the foreground as 255 and the background as 0 to obtain a foreground binary image.
8. The pedestrian boundary crossing detection method based on Gaussian mixture modeling of claim 7, wherein the morphological operations include removing isolated points remaining in the image and filling the void region by using morphological erosion and dilation operations on the foreground image.
9. The pedestrian boundary crossing detection method based on gaussian mixture modeling according to claim 8, wherein the removing of the small interference area of the non-pedestrian in the foreground image by the scale filter comprises counting the number of pixels in each small area, and removing the small non-attention area by the scale filter, wherein the size of the scale filter is set to 30.
10. The pedestrian boundary crossing detection method based on Gaussian mixture modeling according to claim 9, characterized in that a foreground proportion value, namely a foreground pixel area ratio value, of a moving target profile in a boundary crossing forbidden region is counted, when the foreground pixel area ratio value is larger than a set threshold value, a timer counts time, if the counted time is larger than the set threshold value, boundary crossing is judged, boundary crossing alarming is conducted, the boundary crossing alarming comprises an online marking alarm and a site alarming, the online marking alarm conducts online boundary crossing alarming recording according to a set safety mark, and the site alarming comprises a voice alarming device and a display prompting device; the voice warning device comprises a single chip microcomputer, a power supply module, a voice synthesizer, a loudspeaker and a wireless communication module, wherein the loudspeaker is electrically connected with the voice synthesizer, the single chip microcomputer controls the voice synthesizer to play set abnormal reminding voice through the loudspeaker, the power supply module comprises an EMI filter, a rectifier bridge and a DC-DC converter, the input end of the EMI filter is connected with a mains supply output end, the EMI filter, the rectifier bridge and the DC-DC converter are electrically connected in sequence, and the power supply module is used for providing required electric energy for the voice warning device; the display reminding device comprises an LED display screen and an LED display screen driver, the LED display screen driver is electrically connected with the LED display screen, and the LED display screen is used for displaying abnormal alarm data in a rolling mode.
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